dynamic and static
Sometimes engineers use either scientific or engineering notation, although you are correct that most of the time engineering notation is used. The reason for this the use if greek letter prefixes for quantities. Very often large and small quantities are expressed as micro, mega, giga, nano, and so on. These terms relate to engineering notation in multiples of 1000 or 1/1000. It is a very convenient shorthand not only in writing but also while speaking.
Yes, this is correct!The application of scientific knowledge for practical purposes is engineering.
Blakke
mechanical
balloon, golf ball, ect
A few examples of scientific field quantities are temperature, elevation, atmospheric pressure, rainfall, and magnetic fields.
Nothing
Examples of dynamic field quantities include electric and magnetic fields, which change with time as charges or currents move around. These fields have both magnitude and direction that vary over time based on the motion of charges in a given region.
These quantities are referred to as physical quantities in the field of physics. They are measurable properties that can be described using mathematical values and units. Area and volume are examples of scalar physical quantities, while velocity is an example of a vector physical quantity.
Any quantity for which a direction is relevant. Examples include displacement, velocity, acceleration, force, electric field, magnetic field, and many more.
large ocean, outer space, and atoms
Examples of vector quantity are displacement, velocity, acceleration, momentum, force, E-filed, B-field, torque, energy, etc.
Vector quantities are quantities that have directionality as well as magnitude. Displacement (meters North) vs Distance (meters) Velocity (meters per second North) vs Speed (meters per second)
Very large numbers or very small numbers can be expressed in scientific notation as in the following examples: 1,000,000,000,000 = 1.0*1012 0.0000001 = 1.0*10-7
Quantities are called fundamental if they are independent and cannot be expressed in terms of other physical quantities. Fundamental quantities are considered basic building blocks in a specific field of study and serve as a starting point for defining other derived quantities. Examples include length, time, and mass in physics.
Scientific quantities are measurable attributes of a phenomenon, entity, or object that can be quantified and expressed in numerical terms using units of measurement. Examples include length, mass, time, temperature, and electric charge. These quantities are fundamental in scientific research and are essential for describing and explaining natural phenomena.
7.000000e-6